Researchers discovered a bacterium in urine that can convert DHEA into testosterone, shedding light on a previously unknown microbial route to a hormone central to prostate biology. This finding raises new questions about the potential role of microorganisms near the prostate in shaping its chemical environment.
Researchers develop a unified framework for understanding heat's behavior, revealing its physical memory in microscopic motion. The new theory tracks heat's memory at ultrafast times and nanoscale distances, providing a deeper understanding of its influence on heat flow.
Chen Shi has received the 2026 Kamide Lecture Award from the Asia Oceania Geosciences Society for his research on plasma turbulence and its role in generating supersonic solar wind. This recognition acknowledges his contributions to understanding space weather, which can impact satellites, communications, and other technologies.
A new method by Auburn University researchers and partners at Sandia National Laboratories accurately detects atomic-scale defects in electronic materials, improving technologies such as electric vehicles and high-power electronics. The technique uses a physics-based framework to remove measurement uncertainty.
Jessica Eskew, a PhD student in Auburn Physics, has been awarded a highly competitive SCGSR Fellowship to conduct fusion energy research at DIII-D. Her research focuses on runaway electrons, which can damage fusion devices if uncontrolled. Eskew will collaborate with experts in energetic particle physics and plasma control.
Researchers at Auburn University found that weak magnetic fields can reshape the behavior of dusty plasmas, slowing down or speeding up nanoparticle growth. This discovery could lead to new plasma-based techniques for creating nanoparticles with tailored properties.
Researchers at Auburn University have developed a new class of materials that allows for tunable electron delocalization, enabling applications in quantum computing, catalysis, and advanced electronics. This breakthrough has the potential to revolutionize fields such as energy transfer, bonding, and conductivity.
Scientists from Auburn University have detected hydroxyl gas from interstellar comet 3I/ATLAS, providing insight into the evolution of comets and their chemical composition. The discovery suggests that water activity can occur at large distances from the Sun, challenging current understanding of planetary formation.
Researchers at Auburn University and the National Renewable Energy Laboratory have developed a unified statistical theory of heat conduction that explains the unusual ways heat moves in tiny materials. This breakthrough has significant implications for the design of nanochips, AI processors, and advanced energy technologies.
Researchers used AI to analyze protein complexes, discovering catch-bonds 'switch on' almost immediately after force is applied. This finding has implications for understanding bacterial attachment, tissue resilience and developing new biomaterials.
Researchers at Auburn University have discovered the strongest natural protein bond ever recorded, revealing how Staphylococcus aureus clings tightly to human skin. The study found that calcium plays a key role in fortifying this grip, making it stronger and more resistant to breaking.
Professor Edward Thomas Jr. has been awarded the prestigious Star Dust Award by the International Dusty Plasma Community for his 30-year contributions to the field of dusty plasma physics. He is recognized for his groundbreaking research in magnetized dusty plasmas, including the development of novel experimental diagnostics.
Researchers at Auburn University and FIOCRUZ have made significant strides in understanding Chagas Disease mechanisms through novel molecular dynamics simulation. The study identifies new potential targets for therapeutic intervention, which could lead to the development of drugs to block the infection process.
Researchers found that neurons use natural forces to keep their connections strong, and disruptions in these processes may be an early sign of Alzheimer's disease. The study provides new insights into neuronal connections and offers a potential target for therapies aimed at keeping the brain healthy as we age.
Researchers at Auburn University have discovered a new way to make a cancer-targeting protein complex more stable, opening doors to better cancer treatments. By adjusting the attachment points on PD-L1, they found that the complex can become up to four times stronger and grow more stable under tension.
The 62nd Hands-On Workshop on Computational Biophysics at Auburn University features the new VMD 2.0, providing a unique platform for researchers to master latest computational biophysics techniques. Participants will learn hands-on with GPU-resident NAMD 3 and state-of-the-art software.
Researchers at Auburn University have developed a novel approach integrating artificial intelligence with molecular dynamics simulations and network analysis to enhance the prediction of binding sites on the PD-L1 protein. Their findings could improve immunotherapies like pembrolizumab, revolutionizing cancer treatment.
Auburn University scientists have developed a potential breakthrough in Alzheimer's treatment, showing that troriluzole can reverse memory loss and cognitive decline in mice. The study demonstrates that targeting synaptic activity early may prevent or slow the progression of Alzheimer's.
A recent study published in Nature Nanotechnology investigates the coronavirus's ability to attach to human cells under various mechanical stresses. The Alpha variant shows stronger cell adhesion, potentially contributing to its rapid transmission.
A groundbreaking study analyzed the behavior of atoms in COVID-19 proteins to understand its evolution and spread. The research found critical distinctions in mechanical stability among various virus strains, highlighting how these differences contribute to the virus's aggressiveness.
Researchers at Auburn University have discovered a specific pathway regulating how older proteins are transported to the cell body for recycling. This process is essential for maintaining effective neural communication and ensuring optimal cognitive function.
The study delves into magnetic behaviors and ultrafast dynamics in atomically thin materials, aiming to leverage these 2D magnets in innovative applications. Mastering spin dynamics is key to unlocking groundbreaking technologies like spin tunnel field-effect transistors and spin-filtering devices.
Researchers at Auburn University are developing a Findable, Interoperable, Accessible, and Reusable (FAIR) data platform to manage fusion device data according to FAIR standards. The project aims to accelerate fusion energy research by enabling strong collaborations and promoting diversity in the workforce.
The next generation of supercomputers is revolutionizing biophysics research, allowing researchers to simulate complex biological processes with extraordinary detail. This enables the creation of new proteins and design of novel molecular circuits, challenging longstanding biological assumptions.
The workshop, under Prof. Rafael Bernardi and Prof. Emad Tajkhorshid's guidance, showcased expertise from NAMD and VMD developers, providing in-depth dives into molecular dynamics simulations and biomolecular visualization.